Introduction

Jacketed Glass Reactor with a 100L glass vessel supports batch operations involving large-volume reactions. The stirring system enables wide speed adjustment so users can match the agitation level to process needs. Multiple lid openings provide access for connecting condensers or adding funnels and sensors. Our jacketed glass reactor is used for synthesis as well as distillation in chemical and pharmaceutical laboratories.

This laboratory glass reactor is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Jacketed Glass Reactor is used for controlled chemical reactions under varied temperature and pressure conditions in research and industrial settings. This supports continuous mixing, heating, and cooling of reactants for synthesis, crystallization, and distillation processes.

Specifications

Glass Vessel volume 100L
Receiving Bottle 20000ml
Glass Vessel Flange Φ285mm
OD of Glass vessel opening Φ338mm
ID of Bottom Valve Φ21mm
Jacket Interface Joint Size 45
Allowable Pressure of Jacket Interface Less than or equal to 0.03 MPa0.03MPa
Liquid Inlet/Outlet Circulation Hose Interface Rc3/4
No. Of Glass Vessel Lid Openings 7
Center Opening of Glass Vessel Lid Joint Size 60
Side Openings of Glass Vessel Lid S51, NS 35, 40/38, 34/35 (×2)
Solid Charging Port 95 mm joint opening
Sealing Gasket of Glass Vessel Lid Φ338 × Φ294 × 3
Stirring Speed 50-500rpm
Support Parts for Stirrer
Dripping Funnel Volume 10000ml
Interface of Dripping Funnel Φ12.5
Interface of Condenser 40/38
Liquid Collection Tray Standard
Drain Port Ground Clearance About 380mm
Power Consumption 370W
Dimensions (L × W × H) 1250 × 1000 × 2400 mm

Features

Dual-layer thermal insulation

Lockable high-resistance wheels

Adjustable reflux condenser support

Easy-lift vessel frame

Multi-point grounding connector

FAQs

1. Does the Jacketed Glass Reactor support safe mixing of viscous compounds over longer durations?

Jacketed Glass Reactor is equipped to handle prolonged mixing of dense and viscous samples without risk of overheating or flow resistance. The overhead stirring system is built to sustain rotation through heavy compounds while maintaining balanced torque. Its quiet-operating motor doesn’t generate excess heat near thermally sensitive ingredients. This design ensures uninterrupted reactions without premature shutdowns. The jacketed layer helps regulate internal temperature during extended processes. Solid anchoring of the drive shaft further prevents slippage. The wide mouth allows easier visual monitoring of consistency shifts. No added gearboxes reduce failure points during high-load operation.

2. Can the Jacketed Glass Reactor be used in synthesis involving aggressive solvents or frequent chemical shifts?

The Jacketed Glass Reactor is suited for synthesis tasks involving recurring solvent changes, reactive mixtures, or multi-step protocols. Its construction minimizes reactivity with commonly used lab reagents, enabling frequent usage without degrading seals or contact points. The condenser interface permits swift integration with scrubbers or neutralizers. Its spacious design allows for cleaning without specialized tools between transitions. reactor is compatible with various upstream and downstream glass accessories. Mechanical components stay protected from vapor exposure during chemical transitions. This versatility supports parallel screening or formulation steps in chemical labs. The design reduces the need for repeated part replacements during reactive cycles.

3. How does the Jacketed Glass Reactor minimize vibration during stirring at variable speeds?

Jacketed Glass Reactor integrates a counterbalanced frame that prevents tilt or wobble when operating across speed ranges. Its stable tripod structure distributes load evenly and dampens vibration from the overhead motor. Internal support arms keep the central vessel firmly secured during agitation. The built-in drive assembly is optimized to absorb mechanical impulses. Its transmission path avoids direct contact between rotating components and external supports. As a result, even light-mass reactions stay undisturbed by equipment motion. No sudden spikes or oscillations affect sample behaviour during extended trials. The result is a quiet, undisturbed environment for controlled reactions.

4. Is the Jacketed Glass Reactor compatible with chiller-based recirculating systems for low-temperature work?

Jacketed Glass Reactor can easily be coupled with external chillers, allowing temperature-sensitive reactions to proceed without thermal fluctuation. The jacket port design permits quick integration with inlet and outlet fluid lines. Its flow channels ensure proper circulation without stagnation. This helps avoid cold spots or freezing at narrow points. The thermal insulation around the jacket preserves the desired coolant temperature across extended use. The structure supports both rapid cooling and gradual thermal reduction. Hose clamps and connectors resist cracking at low temperatures. No extra adapters are required when connecting to standard lab chillers.

5. How does the Jacketed Glass Reactor assist with visual supervision during reaction steps?

The Jacketed Glass Reactor includes a wide-angle observation panel to let operators monitor reaction progress with minimal distortion. This allows real-time tracking of turbidity, layering, and phase separation without needing to disturb the vessel. Its transparent glass wall offers consistent clarity under ambient or artificial lighting. design removes the need to open lids for sample checks. External interference from condensation or fogging is minimized through optimized ventilation. Stirring effects and color changes become evident through the full cylindrical view. This visual access is especially helpful during solvent recovery or complex crystallization stages.

6. Can the Jacketed Glass Reactor be moved without dismantling between lab rooms or workstations?

The Jacketed Glass Reactor includes caster wheels to support relocation without requiring disassembly of the glassware. The base construction incorporates shock-absorbing wheels that glide over flat or textured surfaces. Locking mechanisms on the castors ensure safe positioning after transport. reactor remains level during shifts, avoiding reagent spillage or internal sloshing. Users can redirect the setup between fume hoods and workstations with reduced lifting effort. The frame resists shaking during movement, keeping the internal parts secured. This enhances flexibility in multi-user or shared lab spaces. No crane lifts or external dollies are needed during handling.

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